Tag: quantum materials
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Unconventional Superconductivity in Magic-Angle Graphene: MIT Physicists Unveil Key Evidence
Revealing a Quantum Leap: Magic-Angle Graphene and its Superconducting Puzzle Superconductivity—where electrical resistance vanishes and electricity flows with perfect efficiency—has long promised transformative energy and information technologies. The latest findings from MIT physicists add a compelling chapter to this story, presenting key evidence for unconventional superconductivity in magic-angle twisted graphene. This discovery delves into how…
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Evidence of Unconventional Superconductivity Emerges in Magic-Angle Graphene, MIT Physicists Report
Introduction: A quantum surprise in a single layer of carbon Graphene, a single layer of carbon atoms arranged in a hexagonal lattice, has long fascinated scientists for its remarkable electronic properties. When two graphene sheets are stacked at a precise, “magic” twist angle, the material exhibits dramatic changes in behavior. In recent experiments, researchers at…
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MIT Physicists Observe Key Evidence of Unconventional Superconductivity in Magic-Angle Graphene
New Findings Highlight Unconventional Superconductivity In a landmark study, researchers at the Massachusetts Institute of Technology have reported key evidence pointing to unconventional superconductivity in magic-angle twisted bilayer graphene (MATBG). The work adds to a growing body of research showing that this engineered material hosts surprising quantum states, beyond what conventional superconductivity would predict. The…
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Measuring Quantum Temperatures: A New Thermometer for Quantumness and the Mystery of Quasicrystal Formation
Unlocking the Quantum Thermometer: A New Tool for Quantumness In a bold step for quantum science, researchers have developed a thermometer that doesn’t measure temperature in the classical sense but instead gauges the “quantumness” of a system. This innovative device aims to quantify how strongly a physical system behaves according to quantum rules, offering a…
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Strain Engineering: Controlling Quantum Defects for Superior Performance
Strain Engineering Elevates Quantum Defects Researchers are pioneering a strain engineering framework that tunes how quantum defects behave in solid-state lattices, with the goal of enhancing spin readout contrast. Quantum defects—tiny imperfections in crystal lattices that trap individual electrons and their spins—are foundational to a range of quantum technologies, from ultra-sensitive sensors to emerging quantum…
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Scientists Crack Loop Current Puzzle in Kagome Metals
What are kagome metals and why they matter Kagome metals are a select class of quantum materials whose atoms arrange in a distinctive basket-weave lattice. Named after the traditional Japanese kagome pattern, this geometry creates geometric frustration among electrons—an inability for them to settle into simple, periodic states. The result is a rich quantum landscape…
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Kagome Metals Reveal Magnetic Switch of Loop Currents
Overview: A long-sought puzzle in quantum metals solved Researchers in Japan have provided the first comprehensive theoretical framework explaining how electricity behaves in kagome metals, a class of quantum materials with a distinctive basket-like lattice. The study shows that weak magnetic fields can reverse tiny loop electrical currents inside these metals, switching the material’s macroscopic…